Electrowave

ABSTRACT

A machine which capitalizes on the descent of water which has been elevated by making use of the random use of waves and or the velocity of the waters. 
     A device which determines the true surface level in spite of random motions of the waters such as waves, surges and etc. by establishing the theory that water seeks its own level. 
     A device which capitalizes on the velocity and weight of water, such as is present in waves and river waters, wherein the current has sufficient velocity to depress a ramp and produce useful energy.

This application claims priority to U.S. Provisional application No. 61/137,315. Filed Jul. 30, 2008 entitled WAVE CATCHER. Conformation #8917

BACKGROUND

This device (ELECTROWAVE) makes use or the speed, motion and weight of wave waters to produce a steady and uninterrupted supply of electricity. It uses a base which is well anchored to the ocean floor so that the devise is maintained in a secure position except for upward and downward motion. The devise is maintained at levels corresponding to the levels of the rising and falling tides by a devise which will be referred to as a “Surface Finder.” Maintaining a constant positioning of the ElectroWave enable it to better capitalize on the random motions of the surf. Also the devise is constructed primarily of plastics, fiberglass and other materials that can better withstand the caustic effects of ocean water.

SUMMARY OF THE INVENTION

As a wave moves up and forward it is ushered up a ramp and into a bucket-like structure. As the water moves up the ramp it presses the ramp downward and proceeds onward to fill the bucket-like structure (which will be referred to as the bucket). When the bucket has been filled with water a float that is located in the upper area of the bucket moves upward moving a lever which causes a snap which holds the bucket up to be released. The bucket then plunges downward. When the bucket arrives at the lower level one or more of the walls of the bucket and or the floor of the bucket is opened by releasing a snap which holds the walls and or the floor of the bucked in a closed position. The water then gushes out of the bucket. Weights which are located on the opposite end of the fulcrum then cause the bucket to rise once again to the uppermost position. The ramp is also located on a fulcrum with weights on the opposite end that return it to the uppermost position after it has been depressed. Also compressed air cylinders are located on the opposite ends of both fulcrums. They are attached to a lower base. The rods of the pistons are attached to an upper frame which moves them up and down in response to the upward and downward motions of the bucket and ramp. The air is then compressed by the compressed air cylinders and transferred to compressed air tanks. The air is then transferred to a compressed air motor which turns an electric generator producing an electric current

The ElectroWave device is maneuvered to match the changing surface levels by rolling upward and downward on two tracts which rise upward from a stationary platform. The platform is submerged but floats toward the surface via floats which are attached to it. It is located at a level that is beneath the level of the lowest ebb tide. The platform is attached to cables which are anchored to an ocean (or lake) floor. Also there is a tract which rises upward between one or both of the dual tracts described above. It has notches on it to which the devise attaches on order to prevent random upward movements that would be caused by the effect of the waves on the floats attached to the lower frame of the device. The tracts rise upward to the highest known level of the highest of the high tides including surges caused by wind.

As the device moves up and down the lower frame is kept on the same level as the surface of the waters by a mechanism called a SURFACE FINDER. This mechanism determines the surface level by using the familiar principle that water seeks it own level. The upward movements of the devise are determined by this surface finder which causes it to lock onto the notches as it moves upward in measured increments.

BRIEF DESCRIPTION OF THE DRAWINGS

FIG. 1 shows a side view of an electrowave device according to a preferred embodiment

FIG. 2 shows a repeat of FIG. 1 with a ramp in a downward position

FIG. 3 shows a 3 dimensional view of FIG. 2

FIG. 4 a shows a bucket in a locked position. FIG. 4 b shows a bucket in an unlocked position ready to descend.

FIG. 5 a shows top view of a float and locking mechanism. FIG. 5 b side views of FIG. 5 a, locked and unlocked.

FIG. 6 a shows the bucket in a lower position FIG. 6 b shows the bucket in the lowermost position with a snap released so that a door is opened and the water in the bucket is released. FIG. 6 c bucket resumes upper position.

FIG. 7 shows a joint (19 c) that permits accommodation between the relative changes of position between the upper and lower frames.

FIG. 8 shows an anchored platform that floats upward toward the surface while remaining submerged. It supports the tracts on which the ElectroWave device rolls up and down and also enables the device to remain on the level of the surface of the tides.

FIG. 9 shows wheels that are mounted on the lower frame. They roll on tracts tracks described in FIG. 8. Also there is a track with notches that are locked into to permit the device to remain at the level of the surface.

FIG. 10 shows a composite view of the base which supports the ElectroWave devise as described in FIGS. 8 & 9.

FIG. 11 shows a view which demonstrates the relationship between the device and its supporting structures.

FIG. 12 a shows the SurfaceFinder mechanism (57) which enables the ElectroWave device to accommodate the changing surface levels which are due to tides, surges & etc.

FIG. 12 b shows the Surface Finder in the process of changing and locking into a different position to keep the ElectroWave device in accord with the changing surface levels. It also shows a pipe (50) which extends at least down to the still water level.

FIG. 13 shows the SurfaceFinder as it is positioned on the lower frame of the ElectroWave device.

DETAILED DESCRIPTION

Referring now to FIG. 1 which is a side view of a portion on the ElectroWave device. It demonstrates the following items: a float 34 which is attached to the lower frame 18. An upper frame 21, an axle joint 22 which supports the upper frame 21 and a ramp 11 with sides 9, a bucket 10 is located on the front end of the upper frame 21, on top of the bucket is a rod 12. In front of the box is an emptying mechanism 13-17 it has wheels 14, a flexible support 15 and or a spring 5, and a joint 16 that enables the mechanism to lean forward and backward. There are also supports 6, weights 20 that enable both the ramp and bucket to return to uppermost position after the water is no longer present Eg. the bucket has released its water and there is no water on the ramp. Compressed air cylinders 19 supply compressed air to a main tank 36 shown in FIG. 8. Note that the ramp 11 is shown in its uppermost position.

Referring to FIG. 2 is the same as FIG. 1 except that the ramp 11 is in a downward position. Not that the rod of the compressed air cylinder 19 has engaged the plunger so as to compress the air in the cylinder.

Referring to FIG. 3 shows a composite 3-D view for clarification.

FIG. 4 a shows a release mechanism which consists of a float 24 attached to a rod 12 with a joint 16. When the bucket is full the float rises and the wheel 23 is moved outward by a rod 12. A support 13 with a joint 16 is pushed outward releasing a snap 7 which enables the bucket to fall downward from the position seen in FIG. 4 a. The float 24 rests on ledge 25 when the water in the bucket is at a lower level. The support 13 and joint 16 are attached to the lower frame 18. The bucket 10 rests on the upper frame 21.

FIG. 5 a shows a top view of a release mechanism described in FIGS. 4 a & 4 b. Eg. a float 24 a rod 12, a wheel 23, joints 28 and a support 13. FIG. 5 b is a side view.

FIG. 6 a shows is a side view of the bucket in descent. A front wall 3 is kept closed by a snap 30. FIG. 6 b shows the bucket in final descent. The snap 30 is forced into an open position by a protruding rod 31 attached to the base causing the door 3 to open releasing the water from the bucket. FIG. 6 c shows the bucket once again in the uppermost position. A protruding rod 32 forces the snap 30 into a closed position. A wheel 29 insures that the wall 3 is closed prior to snap 32 returning to a locked position.

FIG. 7 a Shows a side view of a joint 19 a that enables the compressed air cylinder 19 a swing back and forth in a front to back direction and vice versa. This enables the cylinder to maintain a more vertical position while the upper frame moves up and down moving the rod and plunger of the cylinder up and down. Other items shown are: a tube 35 to transfer air to a compressed air tank, a joint 22 which forms a fulcrum, a support 6, ends of a lower frame 18 and an upper frame 21 and also a float 34. FIG. 7 b shows a side view of the mechanism described in FIG. 7 a. FIG. 7 c demonstrates an air tube 35, a compressed air tank 36. a compressed air motor 37 and an electric generator 38.

FIG. 8 Shows a composite view for orientation. A base platform 45 is located beneath the surface and waves 48 it has multiple floats on the underside 44 and is attached to cables on the underside which are attached to cement blocks or an or a different type of anchor located on the ocean floor 47 (or a lake floor). Located just above the waves is an ElectroWave device 44. Also there are wheels 40 on which the devise rolls up and down on tracts 41. Cables 42 can be attached from the support on top 43 as needed.

FIG. 9 Shows a side view of the base platform 45 as it relates to the wheels 20 which are mounted on the lower frame 18 of the ElectroWave device. The wheels roll up and down on the tract 41 as shown in FIG. 10. 44 are floats.

FIG. 10 Is a front view of the side view shown in FIG. 9. A notched tract 55 which is located in between the double tract 41 which rises up from the base platform 45. The Surface Finder mechanism (shown in FIG. 12) locks into the notches on this tract to enable the ElectroWave device to rise up in increments so that the lower frame 18 stays on the same level as the surface 3 of the water. The locking in also prevents random upward movements that would be caused by the effect of waves 48 on the floats 44 located on the underside of the lower frame. Also shown are wheels 40 and cables 42.

FIG. 11 Shows a 3-D view for clarification of the relationship between the ElectroWave device 44 and the base 45 and tracts 55 & 41. Also shown are floats 44, waves 48 just above the surface, support 43 and cables 42

FIG. 12 a Shows a Surface Finder in a locked position, see 53, while FIG. 12 b shows the device having progressed to an unlocked position and onward into a relocked position. Both are a front view of the Surface Finder device.

FIG. 12 a shows a notched tract 55, a wheel which has locked into a notch in the tract 53, joints 52, a kettle 57 which contains a float 51 that rises when the water level rises. When 51 rises it engages the mechanism which disengages the wheel 53 which enables the ElectroWave device to move up a notch so the lower frame 21 is once again at the same level as the surface of the water. Also there is a support rod 54, a float 34 and a wave 48. Also there is a pipe 50 which extends downward from the kettle down to at least the still water level 60. FIG. 12 c shows a top view of the kettle 57 and its float. Holes 56 in the top of the kettle (if a top is present).

FIG. 13 a shows a side view of the ElectroWave device with the Surface Finder mechanism in place on the lower frame of the device. Shone are a kettle 57, a float 51, a pipe (that goes downward to the still water level).

FIG. 13 b is a front view of the notched tract 55. 

1-10. (canceled)
 11. A machine which capitalizes on the descent of water, which has been elevated by making use of the random motion of waves and or the velocity of the waters, to produce useful energy, comprising: a lower frame; a fulcrum; an upper frame; a ramp or a Power Ramp; a receptacle; an underwater platform; a series of tracts mounted on said platform leading upward, mounted on the platform at a 90 degree angle; a series of notched tracts mounted on said platform leading upward, mounted on the platform at a 90 degree angle; a surface finding device; a compressed air cylinder; a compressed air motor; an electric generator;
 12. Said lower frame as of claim 11, wherein said lower frame serves as a base for said machine.
 13. Said lower frame as of claim 12, wherein lower frame is constructed of materials such as plastics, fiberglass, waterproof paint and other materials that can best withstand the caustic effects of ocean waters, wherein all of the structures of the entire mechanism are constructed of similar materials where ever possible.
 14. Said fulcrum as of claim 11, is mounted toward the posterior area of said lower frame
 15. Said fulcrum as of claim 14, further comprising an axle joint located on the superior aspect of said fulcrum.
 16. Said upper frame as of claim 11, is mounted on said axle joint as of claim
 15. 17. Said receptacle as of claim 11, wherein said receptacle is mounted on the anterior area of said upper frame.
 18. Said ramp as of claim 11, wherein said ramp leads upward from the water surface level to the receptacle.
 19. Said ramp as of claim 18, wherein said ramp ushers water from the surface level to the receptacle.
 20. Said receptacle as of claim 18, wherein the deposited wave water is retained.
 21. Said receptacle as of claim 11, further comprising a float located in the posterior superior area of the receptacle.
 22. Said float as of claim 21, rises when the receptacle has been filled, causing depression of the levers that unlock the latches that maintain the uppermost position of the receptacle while it is being filled, wherein said receptacle plunges downward.
 23. Said lower frame as of claim 11, further comprising one or more rods mounted on the lower frame wherein they protrude upward at a 90 degree angle.
 24. One or more of the rods as of claim 23, wherein they come in contact with and unlock said latches, which secure one or more walls of said receptacle, causing the water to be released from the receptacle.
 25. Said upper frame as of claim 17, further comprising a counterweight or a series of counterweights which are located on the rear end of the upper frame, opposite the receptacle, wherein the descent of the counterweights cause the elevation of the receptacle after it has emptied, returning it to un upper position, wherein it is ready to repeat the cycle.
 26. Said under water platform as of claim 11, further comprising a series of anchoring objects which are anchored to ocean, or lake, floor.
 27. Said anchoring objects as of claim 26, further comprising a series of cables connecting said platform to said anchoring objects wherein the platform is stabilized.
 28. Said platform as of claim 27, further comprising a series of floats wherein it is floated toward the surface.
 29. Said platform as of claim 28, wherein said platform is placed at a level some distance below the level of the lowest ebb tide.
 30. Said series of tracts as of claim 11, wherein said lower frame rolls upward and downward.
 31. Said lower frame as of claim 11, further comprising a series of wheels wherein it rolls on said tracts.
 32. Said series of notched tracts as of claim 11, wherein the notched tracts prevent random upward movements of the lower frame when said latches lock into the individual notches.
 33. Said lower frame as of claim 11, further comprising a series of floats which are mounted on the underside of the lower frame wherein it can maintain above the surface levels.
 34. A device which determines the true surface level in spite of the random motions of the waters such as waves, surges and etc. by establishing the theory that water seeks its own level, comprising: a container; a pipe; a float; a compressed air valve; a latch;
 35. Said container as of claim 34, wherein a sample of water is received which represents the true surface layer.
 36. Said pipe as of claim 34, mounted on the inferior aspect of said container protruding downward to the level of the still water layer of an ocean or lake.
 37. Said float as of claim 34, wherein said float rises when the level of the sample of water received in the container rises, representing the true surface level.
 38. Said compressed air valve as of claim 34, further comprising a rod which opens the said compressed air valve when said float on which the rod is mounted has risen.
 39. Said compressed air valve as of 38, releases air into an cylinder, wherein a rod is depressed causing said latch be released, wherein the latch progresses to the notch above.
 40. Also an alternative method can be used if said latch as of claim 34, further comprising a wheel wherein it is positioned beneath a notch is released by the upward movement of said float as it presses the rod downward.
 41. Said wheel as of claim 40, wherein said wheel which is mounted on the latch progresses to said notch above further comprising the initiation of a cycle.
 42. Said cycle as of claim 41, continues until said lower base has risen to the highest of the high tide levels.
 43. Said cycle as of claim 42, wherein said cycle reverses to a downward phase wherein said wheel rolls downward spontaneously and locks the latch into the notch below, wherein the downward motions continue until the said lower frame reaches the lowest of the ebb tide surface levels wherein the cycle repeats.
 44. Said Power Ramp as of claim 11, said Power Ramp is a device which capitalizes on the velocity and weight of water, such as is present in waves and river waters, wherein the current has sufficient velocity to depress a ramp to produce useful energy, comprising: a ramp; a hinge joint; a spring; a compressed air cylinder; an auxiliary compressed air tank;
 45. Said ramp as of claim 44, further comprising sides mounted on the sides of the ramp at a 90 degree angles or less.
 46. Said ramp as of claim 45, channels water from the surface level upward to and over the top of said ramp.
 47. Said hinge joint as of claim 44, wherein one leaf of a two leaf hinge is mounted on the posterior end of said lower frame wherein the second leaf of the hinge is mounted on the posterior end of the Power Ramp device.
 48. Said spring as of claim 44, wherein the spring is mounted between the posterior areas of said lower frame and said Power Ramp.
 49. Said compressed air cylinder as of claim 44, is mounted between the anterior areas of said upper frame and said Power Ramp.
 50. Said auxiliary compressed air tank as of claim 44, receives the compressed air which has been generated by the Power Ramp via the compressed air cylinder, wherein compressed air may also be received from the main compressed air tank if necessary. 